Unsupervised real‐time SHM technique based on novelty indexes

Summary Structural health monitoring programs play an essential role in the field of civil engineering, especially for assessing safety conditions involving large structures such as viaducts, bridges, tall buildings, towers, and old historical buildings. Mostly, an SHM process needs to be based on a...

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Veröffentlicht in:Structural control and health monitoring 2019-07, Vol.26 (7), p.e2364-n/a
Hauptverfasser: Almeida Cardoso, Rharã, Cury, Alexandre, Barbosa, Flavio, Gentile, Carmelo
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container_issue 7
container_start_page e2364
container_title Structural control and health monitoring
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creator Almeida Cardoso, Rharã
Cury, Alexandre
Barbosa, Flavio
Gentile, Carmelo
description Summary Structural health monitoring programs play an essential role in the field of civil engineering, especially for assessing safety conditions involving large structures such as viaducts, bridges, tall buildings, towers, and old historical buildings. Mostly, an SHM process needs to be based on a trustful strategy for detecting structural novelties or abnormal behaviors. Usually, such an approach is complemented with human inspection and structural instrumentation routines, where the latter requires proper hardware equipment and software tools. Recently, many advances were achieved regarding the hardware resources, such as wireless communication, remotely configurable sensors, and other data management devices. On the other hand, the software counterpart still is in its early developments. Several researches are in progress to fill this gap. In this context, this paper presents a novel online SHM identification method suitable to unsupervised real‐time detection of abnormal structural behaviors. The proposed methodology includes the use of an original representation of raw dynamic signals, that is, in situ measured accelerations. To assess the proposed approach, numerical simulations and two experimental applications are studied: a railway viaduct, PK 075+317 in France and an old masonry tower in Italy. The results suggest that the proposed detection indexes are suitable for a wide range of SHM applications.
doi_str_mv 10.1002/stc.2364
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subjects Bridge towers
Civil engineering
Computer programs
Computer simulation
Consumer goods
Data management
Electronic devices
Hardware
Historic buildings & sites
Historical buildings
Human behavior
Inspection
Instrumentation
Masonry
novelty detection
Railroads
real‐time monitoring
Remote sensors
Software
Software development tools
Structural health monitoring
symbolic data analysis
Tall buildings
unsupervised statistical learning
Viaducts
Wireless communications
title Unsupervised real‐time SHM technique based on novelty indexes
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